Develops certified transport atlases to study response operator behavior over parameter bases, suggesting a new architectural framework.
This paper develops the third module of the Compensated Islands branch of the BoundaryCompensation programme. BC-CI-I introduced finite-dimensional near-compensated residuallayers generated by mapsLθ = P(IK + Kθ), Bθ = LθL∗θ,with a nonzero but bounded observed residual. BC-CI-II introduced certified residualtransport along a declared parameter pathγ : [0, 1] → Θ,where propagation means certified continuation of a readout channel, not physical timeevolution. The present paper lifts that pathwise construction to a multi-chart parameter base.It defines finite-dimensional certified transport charts, overlap transition certificates, gluingcompatibility, and reset obstructions for families of response operators over a parameterregionM ⊆ Θ.The central object is a certified transport atlasA = {Ci}i∈I ,where each chart carries local channel labels, spectral or declared readout projectors, rankdata, cluster-accessibility margins, and readout-status information. On overlaps, localchannel labels are compared by partial transition maps. A gluing certificate is not assumedautomatically: it requires compatible ranks, controlled projector mismatch, positive thresholdmargins, and bounded triple-transition defect. If an overlap or triple-overlap condition fails,the status is a reset obstruction rather than a physical singularity, causal horizon, gaugecurvature, or Berry phase.The paper proves elementary finite-dimensional facts: positive margins yield local transport charts; overlap certificates are stable under sufficiently small deterministic perturbations;pathwise certified transport can be recovered by walking through a gluable atlas; and localchannel certificates do not imply a global channel unless overlap and triple compatibilityare certified. The contribution is architectural and certification-theoretic. It provides theatlas layer needed before any future attempt to interpret residual transport as effectivecausal order, field-like propagation, or horizon-like failure. No spacetime geometry, physicaldynamics, Hamiltonian, quantum field, photon, gauge field, Berry phase, holonomy, orempirical prediction is claimed.
No takes yet. Share an insight, caveat, or question.
A. A. Malachevsky (2026) studied this question.
Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context: